Plastic/Resin/Waxes Insulators TRIZ Cases

See how geopolymer gel impregnation of non-woven fibrous material enables rapid fire-resistant

See how a UV-curable adhesive tape with epoxy resin and photoinitiator cures at 110°C or below

See how thermally-drawn polymer fibers with embedded copper electrodes enable distributed tempe

See how a polymer-coated power cord with an air path equalizes pressure during transit while pr

See how selective polymer infiltration into the core of carbon nanofiber yarns maintains surfac

See how a dual-layer acrylic and silicone coating prevents textile sleeve end fray from cold cu

See how pre-impregnating non-woven fibrous material with geopolymer composition enables continu

See how OXO-ester plasticizers with cyclic hydrocarbon structures replace phthalates, achieving

See how a dual-layer acrylic and silicone coating prevents textile sleeve fraying during cold c

Amino surface treatment lets cellulose materials capture and retain CO2 on fibrous surfaces for greener construction and insulation products.

Cyclohexyl benzene OXO-esters replace phthalates while preserving PVC compatibility, thermal stability, and low-temperature performance.

Sequential amino and carbon dioxide treatment lets cellulosic fibers adsorb and store CO2 on their surface for lower-impact materials.

A dual-layer coating adds a static dissipative surface over a dielectric base to drain triboelectric charge and improve iron glide on fabric.

Specific organic pigments help aramid fibers resist sulfonation, humidity, and washing while maintaining stable coloristic properties.

A heat-formed textile sleeve with a cured outer coating replaces bulky multilayer protection while improving routing, abrasion, heat, and fluid resistance.

Heat-formed yarns and a cured outer coating create a light, flexible wire sleeve that blocks abrasion, heat, and fluids in tight spaces.

A lower-melting binder coated on base fibers forms a strong dry insulation matrix without varnish, cutting process cost and supporting higher temperatures.

A water-dispersed phosphorus blend improves flame-retardant uptake on polyester fiber while preserving light fastness, fogging, and hydrolysis resistance.

Hot-melt adhesive and elastomeric end layers secure a protective textile sleeve to elongate members while preventing fray and eliminating tape or wet glue.

Partially fused PPS forms films between meta-aramid fibers to close voids and raise dielectric strength in motor insulation sheets.

A filled methacrylic dielectric composition replaces acid anhydrides to extend pot life while maintaining mechanical and dielectric stability at 105 °C.

Twin-screw extrusion disperses carbon black finely in non-curable silicone, improving HVDC electrical performance without losing processability.

A polymeric hindered amine UV stabilizer enables low carbon black loading for clear laser marking while preserving UV durability and elongation.

A eutectic-solvent PEDOT:PSS elastomer uses photopolymerization and acid treatment to keep conductivity and durability under repeated deformation.

A waterproof conductive fishing line carries underwater video and high-voltage low-current power over longer distances with better durability.

A resin and 2D inorganic filler slurry confines coating spread, narrows fusion regions, and improves battery insulation under piercing conditions.

A cellulose-synthetic fiber insulation paper with nitrogen thermal stabilizer slows ageing and retains tensile strength in hotter liquid-immersed transformers.

High-purity OFC and layered resin insulation improve voltage resistance, heat tolerance, and flexibility in compact insulated wires.

A tailored TFE-HFP fluorocopolymer balances abrasion, ozone, creep, and CO2 barrier performance while limiting fluorine ion dissolution.

Specific TFE-HFP-FAVE ratios enable uniform thick wire coatings with strong ozone, abrasion, solvent crack, and nitrogen permeation resistance.

Different coating hardness on each steel sheet side preserves lamination adhesion while resisting slitting damage and scratches.

Extrusion plus heat treatment strengthens bonding through the oxide layer, preventing wire insulation delamination and partial discharge.

A tuned TFE-HFP-PPVE copolymer improves thin wire coating moldability while maintaining abrasion resistance, low hydrogen permeation, and creep strength.

Specific TFE, HFP, and fluoro(alkyl vinyl ether) ratios improve moldability, cut air permeation, and resist chemicals, abrasion, and ozone.

Specific TFE, HFP, and PPVE ratios enable uniform thick wire coatings with abrasion resistance, low permeation, and high-temperature rigidity.

A norbornene copolymer balances processability and heat resistance to raise breakdown voltage and reduce warpage in insulating materials.

Specific TFE, HFP, and PPVE ratios improve melt flow for injection molding while preserving abrasion, solvent crack, and creep resistance.

A tuned polyimide precursor lowers permittivity to raise partial discharge inception voltage while preserving wire flexibility.

Imidazole-group polymers hold 70-100% film tenacity even with 12-75 wt% dielectric filler, enabling higher capacitance and voltage resistance.

A tuned TFE-PPVE copolymer balances melt flow and low functional groups to keep thick extruded sheets uniform, transparent, and chemical resistant.

Fluororesin and ceramic cable covering cuts vacuum outgassing and contamination in semiconductor manufacturing equipment.

Controlled pore opening at the conductor interface lowers dielectric constant while preserving insulation film adhesion in insulated wire.

Specific TFE, HFP, and PPVE ratios balance moldability with chemical resistance, enabling uniform wire coatings and crack-resistant thin walls.

Specific TFE-HFP-PPVE ratios improve high-speed wire coating moldability while resisting abrasion, vapor permeation, and cracking.

A tuned TFE-HFP-PPVE copolymer balances melt flow with rigidity, abrasion resistance, and uniform thick wire coatings at high forming rates.

PES nonwoven cured with low-viscosity epoxy replaces bulky silicone gel, improving dielectric insulation while cutting transformer size and cost.

A metal-polymer or ceramic silicone composite reduces static charge and deformation in fine-pitch semiconductor test sockets.

A phenolic-modified epoxy coating bonds electrical steel sheets while preserving magnetic properties and heat resistance in laminated cores.

A ceramicizing silicone sheath and metal case keep battery-pack cables insulated, airtight, and protected from heat, sharp edges, and short circuits.

Heating thermoplastic elastomers above Tg enables thermal drawing of stretchable multi-material fibers that keep conductivity and optical function under deformation.

A heterophasic polypropylene blend improves cable insulation flexibility and breakdown strength while avoiding PVC softeners and XLPE crosslinking.

Epoxy and carboxylic acid polyolefins react in situ to replace peroxide crosslinking, improving cable thermomechanical and electrical properties.

Hollow resin particles in semiconductor sealing compounds lower dielectric constant, improving high-frequency signal transmission with reduced loss.

A ceramic core with a polymer shell helps the insulator resist thermal, mechanical, and electrical loading while reducing fatigue.

A dual-layer sheath combines a flexible filled inner layer with an HDPE outer layer to improve stripping, sliding, and outdoor cable protection.

A tuned TFE-PPVE copolymer balances melt flow and composition to improve surface smoothness, coating uniformity, and chemical resistance.

A tuned TFE-PPVE copolymer balances melt flow and terminal groups to extrude large transparent pipes with high accuracy and low permeability.

A single thermoplastic fluororesin tube uses controlled extrusion and weld lines to enable easy lengthwise tearing without losing inner surface smoothness.

A tuned TFE-PPVE copolymer keeps melt shape during extrusion, enabling thick uniform wire coatings with better abrasion and chemical resistance.

A bimodal polyethylene balances cable insulation and jacket strength, processability, and stress-cracking resistance through dual molecular-weight fractions.

A filler-free FRPP insulation uses char enhancers and halogenated retardants to meet plenum fire limits without raising dielectric constant.

A phenoxy resin fusion layer improves wire-to-wire adhesion, keeps spacing uniform, and raises insulation voltage and PDIV with simpler processing.

Hydromagnesite-huntite silicone insulation improves cable fire resistance and ash cohesion while lowering viscosity, density, and platinum use.

Specific TFE, HFP, and fluoro(alkyl vinyl ether) ratios balance melt flow and quality for thin-wall molding with low fluorine ion dissolution.

A crosslinked polymer insulation with high gel fraction helps twisted conductor wires resist heat, creep, cracking, and water ingress.

A tailored CVD precursor blend raises dense organosilica film modulus while preserving dielectric constant, carbon content, and BEOL reliability.

Reactive fluorinated compatibilizers enable homogeneous fluoroplastic-PAEK blends with toughness, dielectric performance, and adhesion for wire sheaths.

A deformable mesh electrode lets insulating material flow and bond through the plug body, reducing voids, delamination, and discharge risk.

An LDPE/HDPE insulation blend lowers conductivity and breakdown risk in HVDC cables while avoiding crosslinking agents and degassing.

Embedded armor wires and CFRP layers improve wireline cable corrosion resistance while solving outer jacket bonding and IR heating degradation.

A moderated silane crosslinking system improves wiring resin heat resistance while suppressing surface defects and lump formation.

A short twist pitch and high-modulus PVC insulation stabilize conductor position during bending to reduce breakage and protect signal integrity.

A high-r-LLDPE cable coating blended with EVA preserves strength and elongation while reducing sticky surfaces and poor appearance.

A porous, cross-linked polypropylene film traps air in the cable dielectric to raise signal speed while preserving flexibility and thermal stability.

A tailored bonding layer helps PEEK-coated copper wire resist delamination, corrosion, and electrical breakdown in 800 V motors.

UHMWPE blended with LDPE or XLPE gives power cable insulation better low-temperature flexibility, high-temperature creep resistance, and recyclability.

Thermochromic insulator sidewalls reveal overheating faults in live electrical protection assemblies without shutdown or special tools.

Extracting water and other migratory species from semiconductive cable tape helps protect XLPE insulation and preserve dielectric performance.

Multiple metallic water barriers with offset seams and a semiconducting polymer layer block moisture without heavy lead shielding.

Wavy micro-irregularities on a TPU-insulated wire create mechanical interlocking, raising peel strength without long adhesive curing.

Controlling water in halogenated olefin dielectric gas limits decomposition and corrosion while preserving insulation and arc extinguishing.

Plate-like crystalline metal powder in a 0.6-1.4 μm range helps conductive paste maintain electrical conduction without sacrificing cured adhesion.

Hydroxyl, acrylate, and silane-functional ethylene copolymers improve cable layer bonding to polyurethane while enabling cross-linking.

A (meth)acrylate ferroelectric polymer enables spin-coated thin films with precise thickness, high transparency, and strong remanent polarization.

An oxide film on the conductor boosts fluororesin peel strength to prevent floating or wrinkling when the insulated wire bends.

A polyamide-imide/polyimide interlayer preserves adhesion while a TPI insulation layer with corona-resistant fillers raises breakdown voltage.

An Si-H scavenger cuts acetophenone in peroxide-crosslinked cable insulation, preserving crosslink density and shortening degassing time.

A heat-activated polymer layer bonds the metallic sheath to control movement, improve handling, and extend dynamic submarine cable life.

Controlled TFE-HFP-fluoroalkyl vinyl ether ratios improve sterilization crack resistance, water vapor barrier, and creep stability.

Precise HFP and PPVE ratios help this fluoropolymer balance formability with abrasion, creep, oxygen barrier, and hydrogen peroxide resistance.

Precise HFP, PPVE, and melt-flow control helps this fluoropolymer mold cleanly while retaining high-temperature rigidity and chemical resistance.

Precise fluoromonomer ratios balance water vapor permeability and acetic acid barrier performance while preserving rigidity and chemical resistance.

Specific TFE, HFP, and PPVE ratios improve abrasion, solvent crack resistance, and high-temperature durability in chemical exposure.

Heat-released metal ions create reversible ionic crosslinks in wire insulation, balancing heat resistance with re-formability.

Heat treatment lets rigid recycled PVC accept plasticizer, enabling flexible insulating and protective cable layers with recycling value.

A premixed propylene polymer and dielectric liquid enables homogeneous cable insulation extrusion without crosslinking limits or high-pressure injection.

A low-dielectric MAH-g-POE and POE layer improves adhesion and flexibility, keeping flexible flat cable impedance stable after folding.

A layered shield and resin tape structure reduces air pockets, preserves shielding, and keeps small coaxial cables uniform during extrusion.

A ketone- or oxalate-based dielectric fluid replaces air between electrodes to suppress arcing and raise electric field strength for higher torque.

FEP insulation helps twisted-pair automotive Ethernet cable withstand extreme vehicle heat while keeping insertion loss low at high frequencies.

Crotophenone additives crosslink polyolefin insulation to raise breakdown strength, enabling thinner high-voltage cable layers with lower energy loss.

A magnesium hydroxide filler with calcium or silicon impurities boosts cable PE tracking resistance and fire retardancy without sacrificing strength.

A high-aspect-ratio tape-like cross-web cuts storage space and handling cost while enabling longer spools with fewer cable line interruptions.

Atmospheric-pressure plasma and a filled fluoroelastomer wire layer improve adhesion to polyamide or polyurethane molding for airtight, compact cable parts.

Controlled copolymer melt flow and fine carbon black improve semiconductive cable shield smoothness and volume resistivity.

A terpene resin with polybutadiene polyol improves compatibility and adhesion while keeping dielectric constant low for electronic sealing.

Precise TFE-PPVE composition balances abrasion resistance, heat rigidity, and low nitrogen permeability in molded parts and wire coatings.

High-tensile reinforcing strands are intermixed with conductor strands to strengthen holiday light string wire without added copper cost.

Controlled HFP, PPVE, and melt flow balance fast injection molding with abrasion, creep, and solvent crack resistance for chemical-duty parts.

Precise TFE, HFP, and fluoro(alkyl vinyl ether) ratios improve seal air tightness, creep resistance, and chemical durability.

Controlled HFP, PPVE, and melt flow balance abrasion, solvent crack, and CO2 permeation resistance for thin-wall molded fluoropolymer parts.

A tuned TFE-HFP-PPVE composition balances chemical resistance with abrasion resistance, 100°C rigidity, and fast molding.

A tuned TFE-PPVE copolymer balances moldability with low gas and chemical permeability, ozone resistance, and non-corrosive wire coating.

A phenol-based resistance-imparting agent helps propylene cable insulation fill bending-induced voids and retain AC breakdown strength.

Precise monomer ratios and melt flow balance fast molding with thin, uniform coatings, while improving abrasion, crack, creep, and load durability.

A tuned TFE-PPVE copolymer balances chemical resistance with low CO2 permeability, high-temperature rigidity, and injection moldability.

Controlled HFP, PPVE, and melt flow balance abrasion resistance, high-temperature creep strength, and low chemical permeation.

A tuned TFE-HFP-FAVE copolymer balances abrasion resistance, ozone durability, low CO2 permeability, and high-temperature rigidity.

Precise TFE-HFP-PPVE composition improves air barrier performance, heat resistance, and durability for reusable food containers.

Precise TFE, HFP, and PPVE ratios balance injection moldability with abrasion, solvent crack, permeation, and creep resistance.

Precise fluoromonomer ratios and melt flow enable thick, uniform coatings with abrasion, heat-aging, creep, and hydrogen barrier performance.

Controlling lamella thickness and melting point in an ethylene-tetrafluoroethylene copolymer helps wire coatings resist engine oil, heat, and cracking.

A tuned TFE-PPVE copolymer balances moldability with 110°C sealability, low oxygen permeation, abrasion resistance, and creep resistance.

Precise PPVE content and melt flow tuning enable smooth injection molding, uniform thick wire coatings, and long-term ozone resistance.

Precise HFP, PPVE, and melt-flow control helps this fluorine copolymer balance abrasion resistance, oxygen barrier, and high-temperature rigidity.

Precise HFP and PEVE ratios balance extrusion and mold followability while improving abrasion, ozone, solvent, and high-temperature creep resistance.

A TFE-HFP-PEVE copolymer balances low oxygen permeability, humidity control, sterilization resistance, and extrusion formability for anaerobic containers.

Controlling PPVE content, melt flow, and functional groups helps wire coatings balance sealability, abrasion resistance, moldability, and ozone life.

Controlled PPVE content, melt flow, and low functional groups enable transparent large-diameter pipes with stable extrusion and low chemical permeability.

A tuned TFE-PPVE coating balances flow, creep, and abrasion resistance to protect electrical wire in wet CO2 environments.

Controlled fluoropolymer composition improves wire coating moldability while resisting abrasion, gas permeation, creep, and cracking at 125°C.

Ether-structured hollow resin particles cut dielectric loss and water absorption while maintaining 300°C-class heat resistance for multilayer PCB insulation.